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Detection of antiskyrmions by topological Hall effect in Heusler compounds

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arxiv 2006.05190 v1 pith:NB2RWE3O submitted 2020-06-09 cond-mat.mtrl-sci

Detection of antiskyrmions by topological Hall effect in Heusler compounds

classification cond-mat.mtrl-sci
keywords halltopologicalantiskyrmionscompoundseffectheuslerspintextit
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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Heusler compounds having $\textit{D}$${}_{2d}$ crystal symmetry gained much attention recently due to the stabilization of a vortex-like spin texture called antiskyrmions in thin lamellae of Mn${}_{1.4}$Pt${}_{0.9}$Pd${}_{0.1}$Sn as reported in the work of Nayak $\textit{et al.}$ [Nature (London) 548, 561 (2017)]. Here we show that bulk Mn${}_{1.4}$Pt${}_{0.9}$Pd${}_{0.1}$Sn undergoes a spin-reorientation transition from a collinear ferromagnetic to a noncollinear configuration of Mn moments below 135 K, which is accompanied by the emergence of a topological Hall effect. We tune the topological Hall effect in Pd and Rh substituted Mn${}_{1.4}$PtSn Heusler compounds by changing the intrinsic magnetic properties and spin textures. A unique feature of the present system is the observation of a zero-field topological Hall resistivity with a sign change which indicates the robust formation of antiskyrmions.

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